A novel process for fabricating thin silicon PIN detectors based on wafer bonding technology is proposed. Two silicon wafers, device wafer and supporting wafer, with different orientation and resistivity are bonded at high temperature. The bonded device wafer is grinded and polished. Processing this wafer, we successfully produced 100um thick PIN detectors with detecting area ranging from 1 to 113 mm2. The full depletion voltage of all the detectors is about 9V and electrical testing shows a low leakage current of around 100nA/cm3 at 11V. The energy resolution of the fabricated detectors for 5.486Mev alpha particles from Am is 0.34%-0.46%. ? The Electrochemical Society.EI
Sensors fabricated from high resistivity, float zone, silicon material have been the basis of vertex...
Sensors fabricated from high resistivity, float zone, silicon material have been the basis of vertex...
The current and possible uses of semiconductor solid state detectors in nuclear physics are briefly ...
A novel process for fabricating thin silicon PIN detectors based on wafer bonding technology is prop...
A new process flow of fabricating large area thin silicon PIN radiation detectors is presented in th...
Ultra-thin silicon PIN detectors are applied widely in nuclear physics experiments and space explora...
This paper describes the fabrication and initial characterization of an ultra-thin silicon PIN detec...
A novel process for ultra-thin (30??50??m) PIN detector fabrication has been developed. The leakage ...
Thin substrates are one of the possible choices to provide radiation hard detectors for future high-...
Thin substrates are one of the possible choices to provide radiation hard detectors for future high-...
In this paper, the design of large thin PIN detector with a membrane stress avoidance configuration ...
The e+e linear collider physics program sets highly demanding requirements on the accurate determina...
Currently, the integration method of silicon PIN radiation detectors faces challenges such as comple...
Currently, the integration method of silicon PIN radiation detectors faces challenges such as comple...
The fabrication of PIN silicon detector was described with some advanced microelectronic technologie...
Sensors fabricated from high resistivity, float zone, silicon material have been the basis of vertex...
Sensors fabricated from high resistivity, float zone, silicon material have been the basis of vertex...
The current and possible uses of semiconductor solid state detectors in nuclear physics are briefly ...
A novel process for fabricating thin silicon PIN detectors based on wafer bonding technology is prop...
A new process flow of fabricating large area thin silicon PIN radiation detectors is presented in th...
Ultra-thin silicon PIN detectors are applied widely in nuclear physics experiments and space explora...
This paper describes the fabrication and initial characterization of an ultra-thin silicon PIN detec...
A novel process for ultra-thin (30??50??m) PIN detector fabrication has been developed. The leakage ...
Thin substrates are one of the possible choices to provide radiation hard detectors for future high-...
Thin substrates are one of the possible choices to provide radiation hard detectors for future high-...
In this paper, the design of large thin PIN detector with a membrane stress avoidance configuration ...
The e+e linear collider physics program sets highly demanding requirements on the accurate determina...
Currently, the integration method of silicon PIN radiation detectors faces challenges such as comple...
Currently, the integration method of silicon PIN radiation detectors faces challenges such as comple...
The fabrication of PIN silicon detector was described with some advanced microelectronic technologie...
Sensors fabricated from high resistivity, float zone, silicon material have been the basis of vertex...
Sensors fabricated from high resistivity, float zone, silicon material have been the basis of vertex...
The current and possible uses of semiconductor solid state detectors in nuclear physics are briefly ...